210
A. E. Artyukhov et al.
Fig. 3 Data of thermal
imaging studies of the vortex
granulator workspace:
a access to the operating
mode; b operating mode
the drying agent’s flow twisting), it is possible to achieve an increase in the height
of the “active” zone to that height of the zone of the predominant vortex motion of
the granules.
In order to confirm the experimental law regarding the temperature distribution in
the vortex granulator workspace, in this work, a computer modeling of the temperature field of the twisted flow of a drying agent was carried out. The modeling
results are presented in Fig. 4. Satisfactory convergence between the experiment and
modeling results in the operating (steady) mode of the vortex granulator operation
is pointed out.
A. E. Artyukhov et al.
Fig. 3 Data of thermal
imaging studies of the vortex
granulator workspace:
a access to the operating
mode; b operating mode
the drying agent’s flow twisting), it is possible to achieve an increase in the height
of the “active” zone to that height of the zone of the predominant vortex motion of
the granules.
In order to confirm the experimental law regarding the temperature distribution in
the vortex granulator workspace, in this work, a computer modeling of the temperature field of the twisted flow of a drying agent was carried out. The modeling
results are presented in Fig. 4. Satisfactory convergence between the experiment and
modeling results in the operating (steady) mode of the vortex granulator operation
is pointed out.